University of Michigan

Insects have served as the inspiration for a number of Micro Air Vehicles (MAVs) that could be deployed to monitor hazardous situations without putting humans in harm’s way. Now researchers at the University of Michigan College of Engineering are proposing using actual live insects enhanced with electronic sensors to achieve the same result. The insect cyborgs would use biological energy harvested from their body heat or movements to potentially power small sensors implanted on their bodies in order to gather vital information from hazardous environments. Read More

Although Klingon-style disappearing spaceships may not be in our neighborhood any time soon, the technology that could allow a spaceship to vanish from sight may be here now. Scientists from the University of Michigan have successfully made a three-dimensional etched silicon image of a tank appear as a featureless black void, that completely blended in with the backdrop surrounding it. The secret: good ol’ carbon nanotubes. Read More

University of Michigan researchers have proposed a new power management system for smartphones that could dramatically improve battery life. Working with doctoral student Xinyu Zhang, computer science and engineering professor Kang Shin has created a proof-of-concept system known as E-MiLi, or Energy-Minimizing Idle Listening, that addresses the energy waste that occurs when "sleeping" phones are looking for incoming messages and clear communication channels. For users on the busiest networks, it could extend battery life by up to 54 percent. Read More

Although Honda’s ASIMO has been running around at speeds of up to 6 km/h (3.7 mph) since 2004, his style is more of a fast sneak than a true running action. Getting bipedal robot like ASIMO to run like a human is no easy feat - as C-3PO is sure to attest – but researchers in a University of Michigan (U-M) lab have done just that with a bipedal robot called MABEL. The researchers believe that MABEL, which can reach a peak pace of 10.9 km/h (6.8 mph), is the world’s fastest bipedal robot with knees. Read More

Chinese citizens could once again enjoy LOL Cats on YouTube - as well as content critical of the communist government - if a new system developed by researchers at the University of Michigan (U-M) and the University of Waterloo (UW) in Canada were implemented. The researchers claim the system, called Telex, would thwart Internet censorship and make it virtually impossible for a censoring government to block individual sites by essentially turning the entire web into a proxy server. Read More

For a great number of people with paralyzed limbs, the reason that they can’t move the arm or leg in question is because the “move” command isn’t able to reach from their brain to the limb. This is often due to damage to the nervous system, or to the brain, although the limb itself is still perfectly functional ... so it could still move, if only there was a way of getting the signal to it. Well, one might be on its way. Scientists at the University of Michigan have developed an implant known as the BioBolt, that wirelessly transmits neural signals from the brain to a computer. In the future, that computer could hopefully then relay them onto a formerly-paralyzed limb. Read More

Cartilage wounds can be very difficult to treat. While they may eventually heal on their own, the resulting tissue often won't take the same form – or allow for the same function – as the original. Cartilage injuries are often treated with a process known as ACI (autologous chondrocyte implantation), in which a patient's own cells are injected at the wound site to form new tissue. The procedure doesn't always work, as the cells are just injected loosely, with no carrier to transport them or help them get established. Now, however, a scientist from the University of Michigan has developed a technique in which cells are delivered to wounds via injectable nanofiber spheres, and the results are said to be very promising. Read More

It has long been thought that, even though light has electric and magnetic components, the effects of the magnetic field are so weak that they could effectively be ignored. Now researchers at the University of Michigan (U-M) have discovered that under the right conditions, a light field can generate magnetic effects that are 100 million times stronger than previously expected. The researchers say the discovery paves the way for the creation of an "optical battery" that could harness power from the sun without the use of solar cells. Read More

In order to detect the presence of nearby females, the male silk moth utilizes an oily coating on his antennae. Any female pheromone molecules that are in the air will stick to that coating, which then guides them through nanotunnels in the insect's exoskeleton, and ultimately to nerve cells that alert Mr. Moth to the fact that there are ladies in the area. It's a clever enough system that scientists from the University of Michigan have copied it, in hopes of better understanding neurodegenerative diseases such as Alzheimer's. Read More